FREE shipping on orders over US$200 
780nm Polarization Maintaining Fiber Patch Cable, Slow Axis
The 780nm Polarization Maintaining Fiber Patch Cable, Slow Axis Working is designed for applications requiring stable polarization transmission at the 780 nm operating wavelength. Manufactured with high-quality polarization maintaining fiber, the cable provides low insertion loss, high extinction ratio, and excellent polarization stability.
$95.00
780nm Polarization Maintaining Fiber Patch Cable, Slow Axis Working
The 780nm Polarization Maintaining Fiber Patch Cable, Slow Axis Working is designed for applications requiring stable polarization transmission at the 780 nm operating wavelength. Manufactured with high-quality polarization maintaining fiber, the cable provides low insertion loss, high extinction ratio, and excellent polarization stability. The connector key is precisely aligned with the slow axis of the PM fiber, allowing linearly polarized light to be launched and transmitted along the slow axis with minimal polarization crosstalk. Various connector types, polishing options, fiber jacket diameters, and cable lengths are available to meet different system requirements. It is suitable for atomic physics experiments, spectroscopy, interferometry, fiber lasers, sensing systems, laboratory research, and other polarization-sensitive optical applications.
Specifications
| Parameter | Value |
|---|---|
| Center Wavelength | 780nm |
| Connector Type | SC/APC, SC/UPC, FC/APC, FC/UPC, LC/APC, LC/UPC, ST/APC, ST/UPC |
| Insertion Loss at 23°C | ≤0.3dB |
| Extinction Ratio at 23°C | ≥23dB |
| Return Loss | UPC≥50dB, APC≥60dB |
| Fiber Type | PM Panda Fiber |
| Key Orientation | Slow Axis |
| Axis Alignment | ±3° |
| Operating Temperature | -10 ~ +75°C |
| Storage Temperature | -40 ~ +85°C |
Related Products
SunmaFiber offers PM980-XP fibers with AR-coated FC/PC connectors on one end and uncoated FC/PC or FC/APC connectors on the other end. AR coatings are designed to minimize reflections when a beam is emitted into free space or coupled into free space. Coated connectors provide an average reflectance of less than 0.5% over the specified wavelength range without affecting the extinction ratio of the fiber (see the AR Coatings tab for a plot of reflectance versus wavelength).
980/1060nm Polarization Maintaining (PM) Fiber Patch Cable, Slow Axis Working is engineered for high-precision optical applications requiring stable polarization performance at 980nm and 1060nm. Built with slow-axis working PM fiber, it ensures high extinction ratio, low insertion loss, and excellent repeatability, making it ideal for use in fiber optic sensing, interferometry, fiber laser systems, and polarization-sensitive measurement setups.
850nm Polarization Maintaining (PM) Fiber Patch Cable, Slow Axis Working is designed for polarization-sensitive applications operating at the 850nm wavelength. Built with slow-axis working PM fiber, it ensures a high extinction ratio, low insertion loss, and stable optical performance, making it ideal for use in quantum communication, fiber optic sensing, interferometry, and biomedical imaging systems.
SunmaFiber offers PM630-HP fibers with AR-coated FC/PC connectors on one end and uncoated FC/PC or FC/APC connectors on the other end. AR coatings are designed to minimize reflections when a beam is emitted into free space or coupled into free space. Coated connectors provide an average reflectance of less than 0.5% over the specified wavelength range without affecting the extinction ratio of the fiber (see the AR Coatings tab for a plot of reflectance versus wavelength).
SunmaFiber offers PM780-HP fibers with AR-coated FC/PC connectors on one end and uncoated FC/PC or FC/APC connectors on the other end. AR coatings are designed to minimize reflections when a beam is emitted into free space or coupled into free space. Coated connectors provide an average reflectance of less than 0.5% over the specified wavelength range without affecting the extinction ratio of the fiber (see the AR Coatings tab for a plot of reflectance versus wavelength).
Reviews
There are no reviews yet.